Pipeline Design
Pipeline Design - Related Videos
06:50
The Automated Crystallography Pipelines at the EMBL HTX Facility in Grenoble
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Cited by 38 •
2021
Here, we describe how to use the automated macromolecular crystallography pipelines for protein-to-structure, rapid ligand-protein complex analysis and large-scale fragment screening based on the CrystalDirect technology at the HTX Laboratory in EMBL Grenoble.
06:51
PIPEMAT-RS: Development and Validation of a Standardized MATLAB Pipeline for Resting-State EEG Preprocessing
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Cited by 5 •
2025
This protocol presents PIPEMAT-RS, a standardized MATLAB-based preprocessing pipeline for resting-state EEG data. It ensures artifact removal, improves signal quality, and enhances data reproducibility across studies. The pipeline automates key preprocessing steps, including filtering, independent component analysis (ICA), and artifact classification, facilitating consistent and reliable EEG analysis for neurophysiological research.
06:33
A Versatile Pipeline for Analyzing Dynamic Changes in Nuclear Bodies in a Variety of Cell Types
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2024
This method describes an immunofluorescence protocol and quantification pipeline for evaluating protein distribution with varied nuclear organization patterns in human T lymphocytes. This protocol provides step-by-step guidance, starting from sample preparation and continuing through the execution of semi-automated analysis in Fiji, concluding with data handling by a Google Colab notebook.
02:01
Group Design
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2020
The most basic experimental design involves two groups: the experimental group and the control group. The two groups are designed to be the same except for one difference— experimental manipulation. The experimental group gets the experimental manipulation—that is, the treatment or variable being tested—and the control group does not. Since experimental manipulation is the only difference between the experimental and control groups, we can be sure that any differences between the two are due to...
10:23
A Concoction Pipeline for Generating Molecular Operational Taxonomic Units (MOTUs) Among Riparian and Aquatic Beetles
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2025
The protocol presented here aims to guide the users on the computer-based processing of cytochrome c oxidase subunit I (COI) gene sequences generated from beetles, such that the species clustering hypothesis called molecular operational taxonomic units (MOTUs) can be generated from DNA.
FAQs
Pipe diameter and flow requirements jointly shape pressure loss and energy demand. A smaller diameter can increase resistance and raise pumping or compression needs, while a larger diameter may require more material and structural support. Pipeline design therefore evaluates expected flow, pressure behavior, and installation constraints together rather than selecting diameter independently. This comparison supports practical performance and cost specifications.
Material choice must match the transported liquid, gas, or multiphase material as well as the surrounding environmental conditions. Corrosion assessment helps engineers identify conditions that could reduce reliability or increase maintenance demands. Considering these factors during design supports suitable specifications, reduces the likelihood of leaks, and helps maintain safe operation throughout the planned service conditions.
Stress analysis evaluates how a pipeline and its supports respond to operating and environmental conditions. Engineers use it with structural support planning to reduce excessive loading, protect system integrity, and address safety requirements. This work is especially important when route conditions, pressure behavior, or installation constraints could influence how forces are distributed along the pipeline.
Multiphase transport requires engineers to consider the combined behavior of different transported materials rather than treating the system as a single uniform fluid. Flow requirements, pressure losses, pumping or compression needs, and control strategies must be evaluated together. This approach helps predict operating behavior and supports reliable specifications for systems whose contents may include liquids and gases.
A typical planning sequence begins with route selection and definition of the required fluid or material flow. Engineers then evaluate pipe diameter, materials, pressure losses, pumping or compression requirements, structural support, corrosion, and control strategies. These results are balanced against cost, environmental conditions, safety, and reliability to establish an integrated design rather than isolated component choices.
Specifications reflect the transported material, required flow, environmental conditions, and expected pressure behavior. Engineers also determine whether pumping or compression equipment is needed, assess corrosion, and plan suitable structural support. Fluid mechanics and stress analysis provide the technical basis for these decisions, while control strategies help predict operating behavior and define a dependable operating system.
Pipeline design supports water distribution, oil and gas transport, chemical processing, energy infrastructure, and industrial production. The relevant priorities vary with the material moved and the operating environment, but each application requires coordinated decisions about flow, pressure, materials, support, and safety. Applying this integrated approach can reduce leaks, energy consumption, maintenance demands, and environmental risk.